Corrosion resistance for superwetting immiscible oil/water separation porous materials

In this paper, we first fabricate a 3D porous FZCF (FAS-modified ZnO-grown copper foam) with robust superhydrophobicity in air and superoleophilicity under water and the repeatable superwettability, and then mainly explore and analyze its corrosion resistance. The superhydrophobic-superoleophilic FZ...

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Published inRSC advances Vol. 9; no. 23; pp. 12854 - 12863
Main Authors Rong, Wanting, Zhang, Haifeng, Tuo, Yanjing, Chen, Weiping, Liu, Xiaowei
Format Journal Article
LanguageEnglish
Published England Royal Society of Chemistry 25.04.2019
The Royal Society of Chemistry
Subjects
Accidents
adsorption
air
Chemistry
copper
corrosion
Corrosion potential
Corrosion resistance
durability
energy
foams
Hydrophobic surfaces
Hydrophobicity
Metal foams
Miscibility
Oil spills
oils
Porous materials
porous media
Seawater
Separation
solvents
Surface energy
Wastewater treatment
Zinc oxide
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Abstract In this paper, we first fabricate a 3D porous FZCF (FAS-modified ZnO-grown copper foam) with robust superhydrophobicity in air and superoleophilicity under water and the repeatable superwettability, and then mainly explore and analyze its corrosion resistance. The superhydrophobic-superoleophilic FZCF as an immiscible oil/organic solvent separation material shows high adsorption capacity and separation efficiency due to its heterogeneous micro-nano structures and low surface energy. It has excellent corrosion resistance under various pH conditions, and can serve as a corrosion protective barrier that prevents metal from contacting corrosive seawater in marine applications. Adsorbed oils also make superoleophilic FZCF keep its durability and stability after suffering attack in strong acid and alkali environments for a long time. Superwetting porous FZCF material that possesses outstanding excellent corrosion resistance demonstrates potential applications in many industrial fields such as oily wastewater treatment and marine oil spill accidents. Superwetting porous FZCF as immiscible oil/organic solvents separation material that possesses excellent corrosion resistance can be widely applied in many industrial fields such as oily wastewater treatment and marine oil spill accidents.
AbstractList In this paper, we first fabricate a 3D porous FZCF (FAS-modified ZnO-grown copper foam) with robust superhydrophobicity in air and superoleophilicity under water and the repeatable superwettability, and then mainly explore and analyze its corrosion resistance. The superhydrophobic-superoleophilic FZCF as an immiscible oil/organic solvent separation material shows high adsorption capacity and separation efficiency due to its heterogeneous micro-nano structures and low surface energy. It has excellent corrosion resistance under various pH conditions, and can serve as a corrosion protective barrier that prevents metal from contacting corrosive seawater in marine applications. Adsorbed oils also make superoleophilic FZCF keep its durability and stability after suffering attack in strong acid and alkali environments for a long time. Superwetting porous FZCF material that possesses outstanding excellent corrosion resistance demonstrates potential applications in many industrial fields such as oily wastewater treatment and marine oil spill accidents.In this paper, we first fabricate a 3D porous FZCF (FAS-modified ZnO-grown copper foam) with robust superhydrophobicity in air and superoleophilicity under water and the repeatable superwettability, and then mainly explore and analyze its corrosion resistance. The superhydrophobic-superoleophilic FZCF as an immiscible oil/organic solvent separation material shows high adsorption capacity and separation efficiency due to its heterogeneous micro-nano structures and low surface energy. It has excellent corrosion resistance under various pH conditions, and can serve as a corrosion protective barrier that prevents metal from contacting corrosive seawater in marine applications. Adsorbed oils also make superoleophilic FZCF keep its durability and stability after suffering attack in strong acid and alkali environments for a long time. Superwetting porous FZCF material that possesses outstanding excellent corrosion resistance demonstrates potential applications in many industrial fields such as oily wastewater treatment and marine oil spill accidents.
In this paper, we first fabricate a 3D porous FZCF (FAS-modified ZnO-grown copper foam) with robust superhydrophobicity in air and superoleophilicity under water and the repeatable superwettability, and then mainly explore and analyze its corrosion resistance. The superhydrophobic–superoleophilic FZCF as an immiscible oil/organic solvent separation material shows high adsorption capacity and separation efficiency due to its heterogeneous micro–nano structures and low surface energy. It has excellent corrosion resistance under various pH conditions, and can serve as a corrosion protective barrier that prevents metal from contacting corrosive seawater in marine applications. Adsorbed oils also make superoleophilic FZCF keep its durability and stability after suffering attack in strong acid and alkali environments for a long time. Superwetting porous FZCF material that possesses outstanding excellent corrosion resistance demonstrates potential applications in many industrial fields such as oily wastewater treatment and marine oil spill accidents.
In this paper, we first fabricate a 3D porous FZCF (FAS-modified ZnO-grown copper foam) with robust superhydrophobicity in air and superoleophilicity under water and the repeatable superwettability, and then mainly explore and analyze its corrosion resistance. The superhydrophobic–superoleophilic FZCF as an immiscible oil/organic solvent separation material shows high adsorption capacity and separation efficiency due to its heterogeneous micro–nano structures and low surface energy. It has excellent corrosion resistance under various pH conditions, and can serve as a corrosion protective barrier that prevents metal from contacting corrosive seawater in marine applications. Adsorbed oils also make superoleophilic FZCF keep its durability and stability after suffering attack in strong acid and alkali environments for a long time. Superwetting porous FZCF material that possesses outstanding excellent corrosion resistance demonstrates potential applications in many industrial fields such as oily wastewater treatment and marine oil spill accidents. Superwetting porous FZCF as immiscible oil/organic solvents separation material that possesses excellent corrosion resistance can be widely applied in many industrial fields such as oily wastewater treatment and marine oil spill accidents.
Author Chen, Weiping
Liu, Xiaowei
Rong, Wanting
Zhang, Haifeng
Tuo, Yanjing
AuthorAffiliation Harbin Institute of Technology
Ministry of Education
Key Laboratory of Micro-Systems and Micro-Structures Manufacturing
MEMS Center
State Key Laboratory of Urban Water Resource & Environment
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CitedBy_id crossref_primary_10_1016_j_apsusc_2019_144256
crossref_primary_10_1016_j_colsurfa_2020_125850
crossref_primary_10_1016_j_jwpe_2022_103125
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Snippet In this paper, we first fabricate a 3D porous FZCF (FAS-modified ZnO-grown copper foam) with robust superhydrophobicity in air and superoleophilicity under...
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SubjectTerms Accidents
adsorption
air
Chemistry
copper
corrosion
Corrosion potential
Corrosion resistance
durability
energy
foams
Hydrophobic surfaces
Hydrophobicity
Metal foams
Miscibility
Oil spills
oils
Porous materials
porous media
Seawater
Separation
solvents
Surface energy
Wastewater treatment
Zinc oxide
Title Corrosion resistance for superwetting immiscible oil/water separation porous materials
URI https://www.ncbi.nlm.nih.gov/pubmed/35520797
https://www.proquest.com/docview/2216799385
https://www.proquest.com/docview/2253239720
https://www.proquest.com/docview/2661080773
https://pubmed.ncbi.nlm.nih.gov/PMC9063782
Volume 9
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linkProvider Royal Society of Chemistry
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